Linear Homeomorphic Model for Human Movement
- 1 November 1980
- journal article
- Published by Institute of Electrical and Electronics Engineers (IEEE) in IEEE Transactions on Biomedical Engineering
- Vol. BME-27 (11) , 631-639
- https://doi.org/10.1109/tbme.1980.326703
Abstract
The parameter values for this model are specific to the human eye movement systems; however, the form of the model is applicable to other neurological motor control systems. The muscle length-tension diagram was modeled with an ideal spring. The muscle force-velocity relationship was linearized in a manner that produced a linear model. Initial parameter estimates were based on physiological data, human when possible. Then a function minimization program was used to fine tune model parameters. These parameter values were compared to the original physiological data to ensure that they were within the range of variability of the data. The antagonist dashpot value was selected to minimize the mean squared error between human and model responses; the value produced suggested a unique simplified representation for the original physiological data. The parameter estimation routine was applied to make the model match atypical human eye movements; these simulations suggested that glissades in normals are caused by pulsewidth, not pulse height errors.Keywords
This publication has 18 references indexed in Scilit:
- Glissadic Overshoots Are Due to Pulse Width ErrorsArchives of Neurology, 1978
- Dynamic and Static Violations of Heringʼs Law off Equal InnervationOptometry and Vision Science, 1976
- DISORDERS IN CEREBELLAR OCULAR MOTOR CONTROLBrain, 1976
- Parametric sensitivity analysis of a homeomorphic model for saccadic and vergence eye movementsComputer Programs in Biomedicine, 1976
- Computer simulation of biological models using the inners approachComputers in Biology and Medicine, 1975
- Overlapping saccades and glissades are produced by fatigue in the saccadic eye movement systemExperimental Neurology, 1975
- Control of human eye movements: I. modelling of extraocular muscleMathematical Biosciences, 1974
- Regulation of Force and Speed of Shortening in Muscle ContractionCold Spring Harbor Symposia on Quantitative Biology, 1973
- MECHANISM OF SACCADIC EYE MOVEMENTSArchives of Ophthalmology (1950), 1954
- The heat of shortening and the dynamic constants of muscleProceedings of the Royal Society of London. B. Biological Sciences, 1938